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Mathematical Theory of Maxwell's Equations (Sommersemester 2009)

Vorlesung: Montag 9:45-11:15 Seminarraum 31
Mittwoch 9:45-11:15 Seminarraum 31
Dozent Prof. i. R. Dr. Andreas Kirsch
Sprechstunde: nach Vereinbarung
Zimmer 0.011 Kollegiengebäude Mathematik (20.30)
Email: Andreas.Kirsch@kit.edu

Content: Electromagnetic wave propagaition is modeled by a system of two partial differential equations for the electric and magnetic fields E and H, the Maxwell system. This will be the starting point of our lecture. We will consider time-harmonic fields (i.e. periodic in time) solely. The mathematical treatment of the Maxwell system will extensively make use of Sobolevspaces, which will be introduced at the beginning of the lectures. Then we will consider cavity problems, i.e. boundary value problems in bounded domain. Finally, we will treat scattering problems for bounded objects.

Prerequisits: Vordiplom in Mathematics, Physics or in Engineering
Basic knowledge of functional analysis is needed, in particular the notions of normed spaces, Hilbert spaces including their most important examples (C(\overline{D}),\ L^2(D)), linear and bounded or compact operators, the representations theorem of Riesz. Further facts on functional analysis will be derived during the course.

Lecture Notes

We will regularily update the lecture notes of this course. Here is the current version.


D. Colton, R. Kress: Integral Equation Methods in Scattering Theory. Wiley, 1983.
D. Colton, R. Kress: Inverse Acoustic and Electromagnetic Scattering Theory (2nd Ed.). Springer, 1998.
P. Monk: Finite Element Methods for Maxwell's Equations. Oxford University Press 2003.